| Learning Outcomes | PO | MME | 
	
		| The students who succeeded in this course: |  |  | 
		
		| LO-1 | Have information about the semiconductor physics. Learns the concept of carrier. | PO-1 Develop, enhance and deepen and obtain creative original definitions by combining current knowledge of the field and critical thinking and research based upon M. Sc. program skill and outcomes 
 | Examination 
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		| LO-2 | Have information about the transmission of carrier. | PO-6 Question, compose, synthesize and evaluate new and complex ideas. 
 | Examination 
 | 
		
		| LO-3 | Basic circuits used in electronic components learn how it works physically. | PO-2 Comprehend interdisciplinary interactions and relations relevant to physics; analyze, compose, synthesize and evaluate new and complex ideas and to obtain original results by using expertise knowledge of the field 
 | Examination 
 | 
		
		| LO-4 | Have knowledge about the solid state electronics and learning of basic concepts and principles | PO-2 Comprehend interdisciplinary interactions and relations relevant to physics; analyze, compose, synthesize and evaluate new and complex ideas and to obtain original results by using expertise knowledge of the field PO-6 Question, compose, synthesize and evaluate new and complex ideas.
 
 | Examination 
 | 
		
		| PO: Programme Outcomes MME:Method of measurement & Evaluation
 | 
	
		| Course Contents | 
	
		| Thermodynamic equilibrium and statistics in semiconductors, quantum theory of electrons in solids and the presence of energy bands, semiconductor electronics, thermionic emission, the current ,in  metal semiconductor contacts. | 
	
		| Weekly Course Content | 
	
		| Week | Subject | Learning Activities and Teaching Methods | 
	
		
		| 1 | Course presentation | Lecture Method, Problem Solving Method | 
		
		| 2 | Introduction of the crystal structure, the types of crystal structure and the description of Miller indices | Lecture Method, Problem Solving Method | 
		
		| 3 | Atoms and electrons. Introduction and foundations of quantum mechanics | Lecture Method, Problem Solving Method | 
		
		| 4 | Energy bands | Lecture Method, Problem Solving Method | 
		
		| 5 | Semiconductors in equilibrium, doped semiconductors, To introduce the concept of the Fermi level | Lecture Method, Problem Solving Method | 
		
		| 6 | Doped semiconductors and to examine this type of band structure of semiconductors | Lecture Method, Problem Solving Method | 
		
		| 7 | The concept of carrier diffusion, Carrier drift, Examining the concept of carrier diffusion | Lecture Method, Problem Solving Method | 
		
		| 8 | mid-term exam |  | 
		
		| 9 | Carriers in non-equilibrium. Characteristic of excess carriers | Lecture Method, Problem Solving Method | 
		
		| 10 | The concept and types of junctions, and creation of junction | Lecture Method, Problem Solving Method | 
		
		| 11 | Field effect transistors (FET) | Lecture Method, Problem Solving Method | 
		
		| 12 | MESFET, MISFET and MOSFET | Lecture Method, Problem Solving Method | 
		
		| 13 | Bipolar Junction transistors. To describe their work. Fabrication process to be mentioned | Lecture Method, Problem Solving Method | 
		
		| 14 | Some mention of bipolar transistors in which significant effects of thermal drift effects, Kirk effects | Lecture Method, Problem Solving Method | 
		
		| 15 | Examination of DC and high frequency characteristics of bipolar transistors and hetero junction bipolar transistors | Lecture Method, Problem Solving Method | 
	
	
		| 16 | final exam |  | 
	
	
		| Recommend Course Book / Supplementary Book/Reading | 
		
		| 1 | Yarıiletken Fiziğne Giriş,Mustafa Sağlam | 
		
		| 2 | Solid State Electronic Devices, B.G. Streetman | 
		
		| Required Course instruments and materials | 
	
		| Projection Tool |